FFT-based self-normalising receiver for FFH spread spectrum systems

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FFT-based self-normalising receiver for FFH spread spectrum systems

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Partial-band interference due to intentional and unintentional jamming in fast frequency-hopping spread-spectrum (FFH/SS) systems can be effectively suppressed by additional signal processing techniques. The authors present the performance analysis of a binary frequency-shift-keying SS system in conjunction with a fast Fourier transform (FFT) processor. The FFT-based self-normalising receiver, requiring no knowledge of signal and jamming levels, also enjoys the advantages provided by modern digital signal processing technology. Numerical results show that the receiver performance is better than that of the square-law linear combining receiver and comparable to that of the conventional self-normalising receiver as well as the clipper receiver.

Inspec keywords: coding errors; fast Fourier transforms; frequency shift keying; jamming; error statistics; signal processing; frequency hop communication; interference suppression; radio receivers; spread spectrum communication

Other keywords: AWGN; fast Fourier transform; digital signal processing; FFT processor; jamming; FFT-based self-normalising receiver; receiver performance; bit error rate; square-law linear combining receiver; performance analysis; fast frequency-hopping; clipper clipped-linear receiver; partial-band interference suppression; FFH spread spectrum systems; binary frequency-shift-keying SS system

Subjects: Modulation and coding methods; Signal processing and detection; Other topics in statistics; Radio links and equipment; Electromagnetic compatibility and interference; Other numerical methods

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